It is the responsibility of each person at Avient, including contractors, suppliers, and visitors, to follow all security procedures, to remain aware of and report all possible security threats, to remain committed to working in a secure and safe manner, and to be prepared to respond to emergencies safely and effectively. In alignment with these principles and practices, Avient is committed to:  Complying with all applicable laws, regulations and industry standards.  Monitoring the development of emerging laws, regulations and industry standards.  Setting goals and objectives that drive continual improvement and check effectiveness of risk reduction measures in product safety and stewardship.  Consider environmental, health and safety impacts into product design, manufacture, use, reuse, recycling and disposal.  Promote openness and two-way communication with key stakeholders regarding environmental, health and safety measures and risks associated with use, storage, transportation and disposal of our products.

PlanetPak containers are an effective method of packaging Avient liquid colors and additives, designed for ease of handling, reduced storage space, sustainability and optimal yield. The packaging is designed to effectively contain and transport Avient liquid colors and additives. The size range includes: KEY ATTRIBUTES • Customers can expect to get 99%+ yield of liquid contents from a PlanetPak • The square footprint allows effective and efficient transportation & storage • The liner and outer shell can be separated easily and compressed for efficient recycling • The polythene liner remains sealed at all times, eliminating the risk of spills and contamination • Tamper evident and UN rated for safe transportation of classified goods • Food contact approved use PLANETPAK SIZE RANGE 1L 3L 5L 15L 25L ATTRIBUTE FLEXCART FLEXCART MINI FLEXCART MICRO FLEXCART NANO FLEXCART M.I.

Talc can, however, make scratches more visible in a highly filled compound; submicron talcs, surface-treated talcs, and anti-scratch additives can mitigate this effect. These materials typically have a more favorable life cycle analysis (LCA)—the product’s lifetime effect on the environment—and a smaller carbon footprint than traditional, non-biobased fibers and fillers. It is critical to disperse metallic filler effectively in a compound to avoid backup at the injection mold gate, or opening, which can experience wear when exposed to high levels of metallic filler.

Talc can, however, make scratches more visible in a highly filled compound; submicron talcs, surface-treated talcs, and anti-scratch additives can mitigate this effect. These materials typically have a more favorable life cycle analysis (LCA)—the product’s lifetime effect on the environment—and a smaller carbon footprint than traditional, non-biobased fibers and fillers. It is critical to disperse metallic filler effectively in a compound to avoid backup at the injection mold gate, or opening, which can experience wear when exposed to high levels of metallic filler.

Talc can, however, make scratches more visible in a highly filled compound; submicron talcs, surface-treated talcs, and anti-scratch additives can mitigate this effect. These materials typically have a more favorable life cycle analysis (LCA)—the product’s lifetime effect on the environment—and a smaller carbon footprint than traditional, non-biobased fibers and fillers. It is critical to disperse metallic filler effectively in a compound to avoid backup at the injection mold gate, or opening, which can experience wear when exposed to high levels of metallic filler.

Talc can, however, make scratches more visible in a highly filled compound; submicron talcs, surface-treated talcs, and anti-scratch additives can mitigate this effect. These materials typically have a more favorable life cycle analysis (LCA)—the product’s lifetime effect on the environment—and a smaller carbon footprint than traditional, non-biobased fibers and fillers. It is critical to disperse metallic filler effectively in a compound to avoid backup at the injection mold gate, or opening, which can experience wear when exposed to high levels of metallic filler.

Talc can, however, make scratches more visible in a highly filled compound; submicron talcs, surface-treated talcs, and anti-scratch additives can mitigate this effect. These materials typically have a more favorable life cycle analysis (LCA)—the product’s lifetime effect on the environment—and a smaller carbon footprint than traditional, non-biobased fibers and fillers. It is critical to disperse metallic filler effectively in a compound to avoid backup at the injection mold gate, or opening, which can experience wear when exposed to high levels of metallic filler.

Talc can, however, make scratches more visible in a highly filled compound; submicron talcs, surface-treated talcs, and anti-scratch additives can mitigate this effect. These materials typically have a more favorable life cycle analysis (LCA)—the product’s lifetime effect on the environment—and a smaller carbon footprint than traditional, non-biobased fibers and fillers. It is critical to disperse metallic filler effectively in a compound to avoid backup at the injection mold gate, or opening, which can experience wear when exposed to high levels of metallic filler.

Talc can, however, make scratches more visible in a highly filled compound; submicron talcs, surface-treated talcs, and anti-scratch additives can mitigate this effect. These materials typically have a more favorable life cycle analysis (LCA)—the product’s lifetime effect on the environment—and a smaller carbon footprint than traditional, non-biobased fibers and fillers. It is critical to disperse metallic filler effectively in a compound to avoid backup at the injection mold gate, or opening, which can experience wear when exposed to high levels of metallic filler.

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